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Introduction to Steam, Boilers, and Thermodynamics
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Introduction to Steam, Boilers, and Thermodynamics

Master the fundamentals of steam, boilers, and thermodynamics with a course built for engineers, operators, and technicians who need real working knowledge. From combustion chemistry and boiler design to water treatment and safety systems, every topic connects directly to what happens on the plant floor. Get the technical foundation that makes you the person others turn to when the boiler room demands answers.

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What you will learn:

  • Apply the first and second laws of thermodynamics to analyse real steam system performance.

  • Identify fire-tube, water-tube, and specialty boiler designs and select the right type for any application.

  • Read saturated and superheated steam tables and navigate Mollier diagrams with confidence.

  • Evaluate combustion efficiency using flue gas analysis and optimise excess air levels to cut fuel waste.

  • Implement feedwater treatment programmes that prevent scale, corrosion, and costly boiler downtime.

  • Conduct boiler efficiency audits and produce prioritised recommendations for energy and cost savings.

How you study practically Introduction to Steam, Boilers, and Thermodynamics

How you practise Introduction to Steam, Boilers, and Thermodynamics

For companies looking to train their teams

With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.

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Course content

8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)

Chapter 1See details

Fundamentals of Heat and Energy

  • Lesson 1 • Nature of Heat and Temperature

    Distinguishes heat from temperature and explains energy transfer modes. Provides the conceptual base for all subsequent thermodynamic analysis.

  • Lesson 2 • Work, Power, and Efficiency

    Defines mechanical work and power and introduces efficiency as a performance metric. Connects these concepts to evaluating steam system output.

  • Lesson 3 • Properties of Gases and Liquids

    Examines pressure, volume, and temperature relationships in fluids. Prepares students to analyse steam and water behaviour inside boiler systems.

  • Lesson 4 • Forms and Conservation of Energy

    Covers kinetic, potential, and internal energy and the law of energy conservation. Links energy accounting to boiler input-output analysis.

Chapter 2See details

Laws of Thermodynamics

  • Lesson 1 • Heat Engines and Refrigeration

    Contrasts heat engines with heat pumps and refrigeration cycles using second-law principles. Broadens understanding of how steam systems interact with cooling equipment.

  • Lesson 2 • Thermodynamic Cycles Overview

    Surveys Carnot, Rankine, and related cycles as models for steam power systems. Provides the theoretical benchmark for evaluating real boiler-turbine performance.

  • Lesson 3 • First Law: Energy in Systems

    Applies the first law to closed and open systems using enthalpy and internal energy. Establishes the energy accounting framework used throughout boiler analysis.

  • Lesson 4 • Second Law and Entropy

    Introduces entropy, irreversibility, and the direction of heat flow. Explains why real steam cycles always fall short of theoretical efficiency.

Chapter 3See details

Properties and Behaviour of Steam

  • Lesson 1 • Steam Tables and Charts

    Teaches systematic use of saturated and superheated steam tables and Mollier diagrams. Enables accurate property lookup for boiler design and troubleshooting.

  • Lesson 2 • Superheated and Flash Steam

    Examines superheating benefits and flash steam generation from condensate. Connects these phenomena to energy recovery strategies in industrial plants.

  • Lesson 3 • Steam Flow and Pressure Drop

    Analyses velocity, flow rate, and pressure losses in steam distribution lines. Prepares students to size pipework and minimise energy losses in steam networks.

  • Lesson 4 • Phase Changes of Water

    Traces water from subcooled liquid through saturation to superheated vapour. Builds the phase-change foundation needed to interpret steam table data accurately.

  • Lesson 5 • Steam Quality and Dryness Fraction

    Defines steam quality and methods for measuring dryness fraction in wet steam. Directly supports boiler efficiency assessment and moisture control decisions.

Chapter 4See details

Boiler Types and Components

  • Lesson 1 • Key Boiler Components

    Identifies drums, headers, economisers, superheaters, and air preheaters and their roles. Provides the component vocabulary needed for maintenance and operational discussions.

  • Lesson 2 • Specialty and Package Boilers

    Covers electric, waste-heat, and packaged boiler designs for niche applications. Broadens selection knowledge for facilities with unconventional heat sources.

  • Lesson 3 • Boiler Fittings and Accessories

    Reviews safety valves, water gauges, pressure gauges, and feedwater regulators. Ensures students can locate and interpret critical safety and control devices.

  • Lesson 4 • Water-Tube Boiler Design

    Examines drum-and-header construction, circulation patterns, and high-pressure capability. Explains why water-tube designs dominate large-scale power generation.

  • Lesson 5 • Fire-Tube Boiler Design

    Describes shell construction, tube arrangement, and combustion gas routing in fire-tube boilers. Establishes the baseline design against which other boiler types are compared.

Chapter 5See details

Combustion and Fuel Systems

  • Lesson 1 • Flue Gas Analysis and Losses

    Uses Orsat and electronic analysers to measure CO2, O2, and CO in flue gas. Enables students to diagnose combustion problems and quantify stack heat losses.

  • Lesson 2 • Combustion Chemistry Basics

    Covers stoichiometric reactions for natural gas, oil, and coal combustion. Provides the chemical foundation for air-fuel ratio calculations and emissions analysis.

  • Lesson 3 • Fuel Types and Properties

    Compares natural gas, fuel oil, coal, and biomass by energy content and handling needs. Guides fuel selection decisions based on availability, cost, and emissions.

  • Lesson 4 • Burner Types and Operation

    Examines gas, oil, and combination burners including atomisation and flame stability. Connects burner selection and adjustment to reliable, efficient boiler firing.

  • Lesson 5 • Air-Fuel Ratio and Excess Air

    Defines theoretical and actual air requirements and the role of excess air in combustion control. Directly links to boiler efficiency optimisation and emissions reduction.

Chapter 6See details

Boiler Operation and Control

  • Lesson 1 • Startup and Shutdown Procedures

    Details pre-startup checks, light-off sequences, and controlled shutdown steps. Establishes safe operating habits that prevent thermal shock and equipment damage.

  • Lesson 2 • Water Level Control

    Explains single- and three-element feedwater control and low-water hazards. Directly addresses the most common cause of boiler incidents and failures.

  • Lesson 3 • Boiler Instrumentation and Alarms

    Identifies key sensors, transmitters, and alarm setpoints used in boiler control panels. Enables students to interpret readings and act on alarm conditions promptly.

  • Lesson 4 • Automated Safety Systems

    Reviews burner management systems, interlocks, and safety instrumented functions. Ensures students understand the layers of protection that prevent catastrophic failures.

  • Lesson 5 • Steam Pressure and Load Control

    Covers pressure regulation, modulating burner control, and response to load swings. Prepares operators to maintain stable steam pressure under varying demand.

Chapter 7See details

Boiler Water Treatment and Chemistry

  • Lesson 1 • Corrosion, Scale, and Deposits

    Identifies oxygen pitting, caustic gouging, and scale as primary boiler damage mechanisms. Enables students to diagnose water-side problems from inspection findings.

  • Lesson 2 • Internal Chemical Treatment

    Examines phosphate, polymer, and oxygen scavenger programmes applied inside the boiler. Maintains clean heat transfer surfaces and protects metal from corrosion.

  • Lesson 3 • Water Quality Parameters

    Defines hardness, alkalinity, dissolved oxygen, and total dissolved solids as key water quality metrics. Establishes the measurement baseline for all treatment decisions.

  • Lesson 4 • Blowdown Control and Recovery

    Explains continuous and intermittent blowdown to control dissolved solids concentration. Connects blowdown management to water conservation and heat recovery.

  • Lesson 5 • Feedwater Treatment Methods

    Covers softening, deaeration, and filtration as primary feedwater conditioning steps. Prevents scale and corrosion before water enters the boiler.

Chapter 8See details

Boiler Efficiency, Maintenance, and Safety

  • Lesson 1 • Regulatory Compliance and Codes

    Surveys pressure vessel design standards, inspection requirements, and operator certification rules. Ensures students understand the compliance framework governing boiler operation.

  • Lesson 2 • Tube Inspection and Repair

    Covers visual, ultrasonic, and eddy-current methods for detecting tube defects. Prepares students to assess tube condition and make informed repair or replacement decisions.

  • Lesson 3 • Preventive Maintenance Programmes

    Structures daily, monthly, and annual maintenance tasks for boiler reliability. Reduces unplanned downtime and extends equipment service life through systematic care.

  • Lesson 4 • Boiler Safety Hazards and Risk Control

    Identifies explosion, scalding, and toxic gas hazards and the controls that mitigate them. Builds a safety-first mindset grounded in hazard recognition and risk reduction.

  • Lesson 5 • Boiler Efficiency Measurement

    Applies direct and indirect methods to calculate boiler thermal efficiency. Quantifies losses from stack gases, radiation, and blowdown for improvement targeting.

Certification

Your valid completion certificate

This course is for you:

  • Maintenance technicians: seeking deeper understanding of the systems they service daily.

  • Mechanical engineering students: bridging classroom theory with hands-on industrial steam applications.

  • Facilities managers: responsible for boiler rooms but lacking formal thermodynamics training.

  • Career changers: entering the power generation or process industries from unrelated technical fields.

  • Plant operators: preparing for licensing exams or formal boiler operator certification programmes.

  • Energy consultants: expanding their expertise to include steam system auditing and efficiency analysis.

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